years of this program, Chip-RET has demonstrated measurable success inenhancing teachers’ content knowledge and fostering a strong sense of community through itscohort-based structure. Participants benefited from immersive research experiences, the pSEMIand ZeroToASIC speaker series, and mentorship from faculty, which connected them to industrycontexts and enabled them to bring real-world applications into their classrooms. Building on thisfoundation, program facilitators are committed to offering continued support, including sharedresource folders, a LinkedIn group for ongoing communication, and extended guidance for chipdesign projects. Future initiatives will expand outreach to attract a more diverse cohort of teachersand involve state-level
happening in the field of and Real-World Applications soft robotics." Multi-Tasking and Flexibility in "A podcast could be advantageous for individuals with a casual interest in Learning the topic or researchers seeking background information while multitasking." Introduction to Experts and Their "For the podcast, the intended audience is those interested in the field of Perspectives robotics, other researchers, and people who are not familiar with the field." "The podcast seemed to aim at a broader audience, using a conversational Complement to Other Learning tone that could appeal to those outside the technical
(EPICS), where teams offirst-year students join more senior students on design and research teams. In VIP, teams ofundergraduate students engage in authentic and extended research and design projects related toactive research areas of Purdue faculty members and national, international, and industry-sponsored design challenges. The . Students can participate in interdisciplinary and vertically-integrated teams (first-year through seniors) with faculty and graduate student mentors formultiple semesters to address these real-world research and design challenges.In EPICS, teams of undergraduates from more than 80 majors are engaged with communitypartners to address local and global needs. With guidance from faculty and industry mentors theyidentify
BlackCollege and University (HBCU) is being conducted to establish baselines for the mental modelsof students and their tolerance to ambiguity. The modified Rydell-Rosen questionnaire was usedto understand undergraduate students’ ambiguity tolerance. Analysis of cross-sectional datacollected indicates little change in tolerance of ambiguity of undergraduate students with timespent in college. This research is supported by NSF Grant# 1832041.IntroductionThe typical learning environment, and assessment of learning dominant in K-16 educationpromotes a dualistic understanding of the problem space. Students look for the ‘right’ answer, orthe answer the teacher is expecting. Obviously, such learning is rarely applicable to real-lifesituations which are much
a study done by IEEE-USA, employment of engineers has risen by 12percent, and the number of graduated engineers has declined by 17 percent over the sameperiod1. Through these activities, we hope to simulate real world experiences that allow childrento see beyond their own environments, to what the future holds for them, utilizing innovation andtechnology to find solutions for their future.The middle grades are a critical time for students, especially for young girls andunderrepresented minorities, to continue their interest and studies in science and math. In orderfor this group to maintain interest in these areas throughout high school and college, they mustdevelop related skills, and retain positive feelings about them2. Data on science
, where the user interacts with computer-generated content. 2. Real-world integration: It integrates real-world elements, objects, or environments into the virtual environment to create a sense of presence and familiarity. 3. Interaction and immersion: AV offers a level of immersion and interaction that goes beyond traditional augmented reality, allowing users to manipulate and engage with the integrated real-world elements. 4. Contextual connectivity: It leverages sensors, cameras, and other data sources to understand the context and spatial relationship between virtual and real-world elements.” [14]Augmented virtuality has many applications such as training and simulations, gaming andentertainment, remote
project. Our selected project stressed management principles bycreating realistic budgets, Gantt charts, fundraising, advertising, and managerial interactions.Likewise, teamwork was encouraged by real-world time demands, task complexity, moderncommunications, and public visibility.2.0 Project objectives and outcomesThere were four main objectives considered in selecting the “Holiday Light Show” project whichintroduced first-year engineering students to the following concepts. 1) Exposing students tocommunication methods within the global business environment will better equip students forinternational offices and understand differences in multicultural ethics. 2) The second objectiveis to encourage creative thinking. As the pace and volume of
more thorough understanding of modern trends of engineering science and provides scientific world with a wider range of scientists. Profound practical education; Russian experience of practice-driven educationfocuses on involving in teaching not only faculty, but practicing engineers, hands-on technical staff, industrial managers and other experts from the real market to be full-time, part-time or guest lecturers and tutors. Mandatory internships at real industrial companies, practice-oriented educational technologies and applicative thesis papers allowstudents to acquire practical skills, become competent specialists during the studying process and shorten or dissolve the adaptation
resultsshowed higher student success with writing-intensive courses in developing critical writing skillsin a construction management course [2]. Challenges of developing writing skills amongundergraduate STEM curricula are addressed by Mayo and Wheaton [3] who state that writingassignments can be developed such that they assist students in connecting their technical work toreal-world applications. In their lesson plan, the students were expected to post their work on apublic platform encouraging students to produce quality work. Richards and Milanovicestablished partnerships with professional writing faculty, industry members and technicalcourse instructors to mentor senior design project students in effective writing through pairedteaching [4]. In a
Things valuable application layer services (ABET: c, e, k) introduction. Simple group project Students in several groups performed simple (ABET: b, c, d, e, g, i, k) projects uploading their smartphone accelerometer and/or other sensor data to the cloud (mostly IBM Cloud (formerly Bluemix)) and observe them in real-time. This provided students with hands-on practice to perform a
classroom, we describe asurvey that focuses on web site and presentation applications. The sample set includes two classes: aJunior-level required course, and a Senior-level elective course. Finally, we finish the paper withconclusions and recommendations for further study.BackgroundFew will argue that the personal computer (PC) and world-wide-web (Internet) have ushered in a newtechnology revolution with significant impact to everything from our global economy to how we lead oureveryday lives. As a result, the Engineering Educator now faces a host of new opportunities including: • Increasing enrollments, • Shifting demographics, • Overburdened faculty and staff, • Rising student expectations, and • Increased
, 7. In the second category, engineering content is embedded in required math and sciencesubjects8. Both approaches have their merits. While there is an ongoing effort in the nation toincrease K-12 math and science teachers’ content knowledge, it is important to recognize thatteachers can potentially become more confident to teach challenging concepts and know how torelate them to real-world engineering applications if they participate in a professionaldevelopment program that gives them the opportunity to experience engineering.In its efforts to bring engineering into K-12 classrooms, the University of Texas-Pan American(UTPA) has partnered with several school districts in the region. The main objectives of thispartnership are: (i) providing
interest groups: Enterprise-wide Optimization (EWO)lege of Engineering. and Energy Systems Initiative (ESI), which include specific projects in these areas as well as seminars on a variety of With support from the National Science Foundation, the related topics. The goal of the EWO group is to provide aDepartment of Energy, and the process industries, our group comprehensive set of computational capabilities for address-has pioneered the discovery, development, and application ing the integrated planning, scheduling, real-time optimiza-of new methods for process design, analysis, and operations. tion, and inventory
from whichnew parts or molds can be produced. The steps involved in a reverse engineering process can beclassified as: obtaining and analyzing the dimensional data, creating the CAD model andtransforming it into a prototype which can be checked against dimensional and functionalrequirement or improved further for new application. Traditionally reverse engineering can beperformed by first creating a true 3D computer model in a CAD software such as SolidWorks,SolidEdge, Pro-Engineer etc. from the geometrical data obtained from the real life object byvisual observation and direct measurement and then making the prototype. A process ofreproducing a part for which no engineering drawing existed from data collected fromCoordinate Measuring Machine
step, an initial random population (food source positions) The efficiency of some applications for the diversity of distributed is generated. After booting, this population isinsects used in computer science for the improvement and subjected to repeated cycles of processes of job search, viewer,creation of algorithms, has been showing up more and more and scout bees, respectively.effective. One can thus see the similarity computing machineto the real world, through this study of the behavior of the real A bee employed make a change in the position of the locallife of insects and application in distributed systems. food in his memory and discovers a new food source position
need to connect outreach topicsto real-world experiences to spark interest and engagement among participants. Inconclusion, the literature reviewed underscored the diverse objectives and methodologiesemployed in designing and implementing outreach activities across various fields. Byincorporating innovative approaches, fostering collaborations, and aligning activities withthe interests of target audiences, outreach initiatives can effectively promote learning,engagement, and knowledge dissemination within communities.Description of the ActivitiesThe authors selected four topics at the intersection of engineering, engineeringtechnology, and manufacturing and put them in the I4.0 settings. The selected topics arethe following: 1. Computer
real world use.” ̇ “This course was much like the capstone course in that it was to solve real world problems.” ̇ “The course did not cover several issues addressed in the capstone course, for example: ethics, finance, and drafting.” ̇ “Design courses focus on understanding the mechanics while working on a project requires higher thinking to understand the context those mechanics and their applicability to the project. A good analogy for the differences would be a toolbox. Design classes focus on what is in the toolbox while working on a project focuses on selecting the right tool for the job.” ̇ “The capstone class is required and individual roles are assigned. For many students, it is
happen and what they were looking for.The Caterpillar interview obviously went great, and I am right here in town where I wanted to be.” Rising Scholar Gamma (Engineering Technologist) “Seeing things in the real world boosted my confidence and let me know that I was gettingthe education that I needed to hold the career I wanted. Being able to look at steel trusses andrecognize the basic statics elements and see the critical strength areas really helped my self-confidence. When I saw my actual design classes being applied to real-life experiences, it allcame alive for me. It just boosted my thoughts to a completely new level and made me realizehow applicable everything from my training was to my
the desire to keep outside work for teachers at a levelthat was acceptable to them; however, the elimination of this component refocused the lessonaway from applications and to isolated synthesis and simulation components, which dealt onlywith the scientific phenomena outside of any real-world situation. The presentation componentcontextualized the use of quantum dots in terms of their applications as a supportive technologyin a variety of fields. Without this application/presentation component, teachers were notexposed to any meaningful contextualization of quantum dots in real-world applications. Whileit is difficult to say exactly how the presentation/application component would have impacted theoverall quantum dots lesson experience for
these data. Theseconcepts are usually learned in the DSP course offered in the Electrical and Computer Engineeringcurriculum. That course usually involves complex mathema�cal concepts, which can bechallenging for students from other engineering disciplines. Also, those students are notmo�vated to enroll in a DSP course as they struggle to see the prac�cal applica�ons of spectralanalysis in real-world engineering problems.This paper presents a learning module to fill these gaps. It can be added to any of the engineeringcore, engineering design, or fron�ers of technology courses present in most engineeringprograms. The module needs two lectures if the students have some knowledge about filteringand sampling con�nuous data. If they don’t, then one
come together to developand field test new materials for secondary school science classrooms. The instructional unitshave as their starting point a “grand challenge” that not only assists the students using thematerials to see a real world application of the science knowledge they will be learning but alsoserves as a focus for student understanding. For example, the grand challenge for the OpticsMosaic centers on the need for the student to select and justify a remedy to their mother's need toget rid of her glasses. Students study the fundamentals of optics within the context of solving thisgrand challenge.Research has shown that young women learn science better when certain characteristics of theclassroom and curriculum are met. Specifically
kinetics, and reducereagent consumption[2, 3]. With applications across disciplines such as biology, chemistry,medicine, climate science, and engineering, microfluidic devices emerge as a flexible platform forexperiential learning, effectively connecting theoretical knowledge with real-world applications[4].Similarly, material characterization tools like the DSC unveil exothermic energy release during thephase transition of a material. Determining the onset and endset of the freezing point from the phasetransition curve, these instruments provide students with a hands-on platform to delve into and applytheoretical concepts[5]. Proceedings of the 2024 ASEE Gulf-Southwest Annual Conference West
high school becausecurrently they are accessible only to CS majors in college. It also focuses on other 21st centuryskills required to productively leverage computational methods and tools in virtually everyprofession. To address the dire gender disparity in computing, the curriculum was designed toengage female students by focusing on real world application domains, such as climate changeand health, by including social applications and by emphasizing collaboration andteamwork.Our paper describes the design of curricular modules on Distributed Computing,IoT/Cybersecurity, and AI/Machine Learning. All project-based activities are designed to becollaborative, situated in contexts that are engaging to high school students, and often involvereal
cogeneration, the class was able tospend some time talking about a real-world application of thermodynamics that has greatrelevance on campus, as Smith is considering retrofitting its physical plant to become acogeneration facility. A 15 minute discussion of Smith’s situation and the factors that influencedSmith’s past decisions not to move to cogeneration as well as its current favorable considerationof the option brought out reflections on Foucault, political and economic considerations, the needfor good communication, ethical decision-making, and other factors. The class thenbrainstormed in groups and shared the kinds of preparation an engineer needs to work on acogeneration project. Students themselves noted the importance of liberative pedagogies
], LEGO four-bar mechanisms [4], and hands-on experiments with physical models [1,9,12]. The software Working Model is commonly used for simulating dynamic properties in projects, such as aircraft landing gear simulations [13], experimental model-based control design using multibody codes [14], and applications in mechanical engineering technology [15]. These activities aim to link course content with real-world examples and provide opportunities for students to compare theoretical calculations with real-world data. These activities also do not demand substantial out-of-class time, as they rely on existing devices, instruments, or software.c. Physical Design Projects: This type of activity requires students to design and build
factor to early attrition rates in engineering students2.Unfortunately, addressing real world applications in engineering courses is typically left untilupper division, discipline specific classes. Contextual learning is often left out of engineeringcore course such as Statics and Mechanics of Materials, despite both the significance of thematerial taught in these courses to upper division classes and the pedagogical advantages tousing such an approach in engaging multiple types of student learning styles3. Labs and casestudies can help in developing context; this paper presents a project that can easily be adaptedinto any mechanics class, regardless of discipline or lab component, that helps students topersonalize the material.In order to
education for the farther future workforce needs. The current design of college level workforce training may only satisfy the industry demanding of the coming decade. The challenges of the next decade and beyond may be very different and need to be predicted and addressed in advance to keep US technology leading the world as well as avoid misplacing of the education resources.The themes for targeting new and prospective mechatronics technology developments are The trend of mechatronics systems. The future applications of mechatronics will be discussed, especially the cyber-physical systems and IOT, including ground mobility systems such as connected autonomous vehicles (CAV), alternative energy powered mobile systems
roughly a week and the last week will be dedicated tocreating the final management presentation. The course content pursues the following outline: a.The course begins by strategically positioning enterprise modeling as a business analysis andleaning tool. b. The course then introduces a series of modeling techniques that are used as theinternational standards for modeling. c. The course continues with the application of themodeling techniques to lean a process, create an integrated supply network, develop aknowledge management system, etc. d. The course ends with a capstone deliverable of a businessmanagement presentation by the student on how the enterprise modeling techniques can bepositioned to effectively address a real business issue.IEE 512
with no operating system. After someinvestigation, we determined that we could use 3.3 or 5 volts when talking device-to-device butneeded to convert to 12 volts when connecting to a PC. The only signals needed initially wereRX, TX and ground (though we found later that implementing RTS/CTS signals would eliminatesome problems). To test transmission, we first sent Hello world to HyperTerminal. This wassuccessful. Then we removed the DB9, directly connected another microcontroller anddeveloped code to receive the Hello world message. Everything continued to work well - whenwe ran the program again, Hello world came out the other end.The adventure began at the point when some real work needed to be done. The real workinvolved transmitting a
receiving critiques more typical of “real- world” engineering than of traditional assessment. • High-school students’ participation in undergraduate work with engineering students provides an opportunity for the high school students to connect course content to real-world problems, which may motivate them to consider a career in engineering or science.Example 3: First-Semester Retention Rates and Student Learning StylesProject Summary: This project also involves a multi-disciplinary team, yet this team iscomposed of five faculty members from two universities representing five different sub-disciplines of engineering with the goal of learning more about first-semester studentretention issues.Specifically, the project